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. 2022 Oct 29;10(11):2164. doi: 10.3390/healthcare10112164

Table 2.

Characteristics of included studies on general pregnancy risk assessment.

Study Country Sample Size Population Model Knowledge Source for AI Type of Risk Prediction Value of AI/AUC Prediction Value of LR
Gorthi et al. (2009) [30] India 240 A prospectively collected sample of pregnant women was used to assess the practical model.
There were 200 training cases and 40 test cases.
Knowledge-based system Literature Risk classification Training 93.4 %,
test 82.5%
NA
Umoh and Nyoho (2015) [31] Nigeria 30 Pregnant women (aged 25–40) were selected to test the theoretical model. Intelligent fuzzy framework Literature High-risk pregnancy Not assessed NA
Fernandes et al. (2017) [32] Brazil 1380 Retrospective validation of the documentation of pregnant women from the High-Risk Prenatal sector at MEJC was used to test the theoretical model. Knowledge-based system Predefined risk factors Risk reclassification Not assessed NA
Chaminda and Sharmilan (2016) [33] Sri Lanka 117 Pregnant women of different ages and lifestyles were used.
(Unclear if retrospective or prospective.)
There were 93 training cases and 24 testing cases.
Hybrid system: neuronal network and naïve Bayes algorithm Predefined risk factors Pregnancy risk assessment ANN 80%,
naïve Bayes 70%,
novel hybrid approach 86%
NA
Moreira et al. (2018) [34] Brazil, Portugal, Saudi Arabia, India, Russia 100 Parturient women diagnosed with a hypertensive disorder during pregnancy were used.
All prospectively collected cases were used to test the model.
Artificial neural networks (ANN) Patient’s history Hypertensive disorder during pregnancy Hybrid algorithm 93% NA